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Time-Travel Quantum Computing Theory

Jincheng Zhang

Published Sep 7, 2026• 0 citations
Publisher

Abstract

This paper explores the theoretical implications of time travel within the context of quantum computing. We propose a novel model that leverages quantum superposition and measurement to simulate the influence of past events on present quantum systems. The core claim is that a carefully designed time-traveling quantum computation framework can provide insights into historical phenomena and allow for the simulation of past quantum states, offering a fundamentally new approach to research and modeling. The paper details the model's construction, potential applications, and challenges, ultimately arguing for the necessity of incorporating temporal considerations into quantum computation.

DOI
10.5281/zenodo.22624322

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Quantum time travel, a theoretical concept that allows for the manipulation of time, presents a profound challenge to our understanding of physics and causality. This paper explores the potential of a computational framework, termed "Quantum Time Travel" (QTT), to simulate quantum system evolution and investigate the theoretical implications of time travel. The core mechanism of QTT centers around leveraging quantum entanglement and superposition to model temporal dynamics, offering a novel approach to simulating complex quantum systems beyond the limitations of classical computational methods. The paper outlines the framework's design, potential applications, and preliminary results, highlighting the theoretical implications of exploring time travel through quantum computation.
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